DocumentCode
1336952
Title
A spectral recursive transformation method for electromagnetic waves in generalized anisotropic layered media
Author
Yang, Hung-Yu David
Author_Institution
Dept. of Electr. Eng. & Comput. Sci., Illinois Univ., Chicago, IL, USA
Volume
45
Issue
3
fYear
1997
fDate
3/1/1997 12:00:00 AM
Firstpage
520
Lastpage
526
Abstract
A transition-matrix method is commonly used to deal with the problems of plane wave scattering from and the Green´s function for multilayered generalized anisotropic media. The boundary conditions at the source interfaces are matched numerically. This method, although rigorous analytically, causes numerical singularities in the matrix inversion when the spectral fields are highly attenuating. A recursive variable transformation method is developed to deal with the exponentially growing or decaying terms associated with the spectral matrix method. The proposed scheme is suitable for numerical analysis of generalized anisotropic layers including uniaxial and biaxial materials, biased ferrites, magnetoplasmas, chiral and bi-anisotropic materials without increasing computer time. Applications of the recursive method are highlighted through examples of radiation and scattering from a three-layer ferrite structure and a conductor-backed magnetoplasma layer
Keywords
Green´s function methods; chirality; electromagnetic wave scattering; ferrites; matrix inversion; plasma; spectral analysis; EM plane wave scattering; EM radiation; Green´s function; attenuating spectral fields; bianisotropic materials; biased ferrites; biaxial materials; boundary conditions; chiral materials; conductor-backed magnetoplasma layer; generalized anisotropic layered media; magnetoplasmas; matrix inversion; multilayered generalized anisotropic media; numerical analysis; numerical singularities; recursive variable transformation method; source interfaces; spectral matrix method; spectral recursive transformation method; three-layer ferrite structure; transition-matrix method; uniaxial materials; Anisotropic magnetoresistance; Boundary conditions; Conducting materials; Electromagnetic scattering; Ferrites; Green´s function methods; Magnetic anisotropy; Magnetic materials; Numerical analysis; Perpendicular magnetic anisotropy;
fLanguage
English
Journal_Title
Antennas and Propagation, IEEE Transactions on
Publisher
ieee
ISSN
0018-926X
Type
jour
DOI
10.1109/8.558667
Filename
558667
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